This technology includes lentivirus vectors to be used to treat sickle cell disease and beta thalassemia. (i) Lin28A or Lin28B vectors designed for erythroid-specific expression using EKLF1, SPTA1, or similar erythroid-specific regulatory elements will be used to transduce hematopoietic stem cells isolated from humans with sickle cell disease or beta-thalassemia syndromes.

This technology includes a plasmid (designated pJH114) that encodes all five subunits of the E. coli Bam (barrel assembly machine) complex under the control of an inducible promoter to be used in the study of the Bam and screen for therapeutic small molecules. The Bam (barrel assembly machine) complex is a highly conserved heterooligomer that catalyzes the integration of membrane proteins that have a beta barrel structure into the outer membrane of Gram-negative bacteria. Research suggests that this complex is essential for the viability of most, if not all bacteria in this class.

This technology includes an immunoassay to measure SARS-CoV-2 antibodies against the nucleocapsid and spike proteins.

This technology includes a Drosophila mutant strain that can be used as an in vivo model for diseases of the oral cavity and digestive tract (Sjogren's syndrome, colitis, colon cancer, inflammatory bowel disease), where the mucous membrane is disrupted or non-functional. This mutant lacks a mucous membrane and displays epithelial cell damage, uncontrolled cell proliferation and the up-regulation of conserved signaling pathways (JAK/STAT).

This technology includes a novel AAV isolate (AAV44.9) to be used as gene therapy for the inner ear for the treatment of deafness. The ability of AAV vectors to transduce dividing and non-dividing cells, establish long-term transgene expression, and the lack of pathogenicity has made them attractive for use in gene therapy applications. Vectors based on new AAV isolates may have different host range and different immunological properties, thus allowing for more efficient transduction in certain cell types.

This invention relates to a novel gammaretroviral vector packaging cell line and a method of producing gammaretroviral vectors suitable for gene therapy. The described vectors may contain the gibbon ape leukemia virus (GALV) envelope with a CD11D8 epitope tag enabling their purification on a monoclonal antibody conjugated column. These vectors have several advantages over existing systems, including a broader host range, higher infectivity, and lower potential for replication.

This technology includes a product for local delivery of alkaline phosphatase for the treatment of periodontal disease. Our laboratory has discovered that factors regulating phosphate metabolism and specifically the appropriate balance between phosphate (Pi) and pyrophosphate (PPi) at local sites are needed for formation (development), maintenance and regeneration of the tooth root surface (cementum), periodontal ligament (PDL) and surrounding alveolar bone, i.e., the periodontal apparatus.

This technology relates to a mouse model that improves an existing method of disrupting the production of the BDNF protein in specific parts of the brain. A current avenue of research seeks to examine how gene expression may effect long-lasting changes in the nervous system. Previous work has resulted in a mouse line in which the production of BDNF was disrupted. However, these mice had an inadvertent genetic component left in: a neomycin cassette. This unintentional addition led to significant deleterious effects.

This invention relates to novel mouse and rat models that permit the temporal death of neuronal precursor cells at any time point. Other existing methods of decreasing neurogenesis are relatively non-specific (e.g., injecting glucocorticoids) or require expensive equipment (e.g., focal x-irradiation)
These mice and rats are being used to inhibit adult neurogenesis in order to study the normal function of adult neurogenesis and to model disease states thought to feature decreased neurogenesis, such as chronic stress, anxiety, and depression.